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Was dabis fire always blue?

Dabis fire, also known as blue fire, refers to flames that burn with a blue color rather than the typical yellow/orange hue. This phenomenon has likely existed as long as fire itself, though historical references are scarce. Let’s examine what causes blue fire and whether it has always manifested this way throughout history.

What Causes Blue Flame?

The color of fire depends on what fuel is being burned and the temperature at which it burns. Traditional orange/yellow fire is caused by the emission of light from incandescent soot particles generated during incomplete combustion. The hotter a fire burns, the less soot it produces and the bluer it appears. Blue fire, therefore, is an indicator of extremely high temperatures.

For a fire to burn blue, it needs to reach temperatures above 2,000°F (1,100°C). This is generally achieved by burning clean-burning gases like propane, natural gas, or alcohol. Under these conditions, ionized gas molecules emit blue light as they return to lower energy states during combustion. Specific types of blue fire include:

  • Gas stove tops – Burners are calibrated to produce blue flames by mixing gas with the right amount of oxygen.
  • Bunsen burners – Air intake on these laboratory burners is adjusted to create a hot, clean-burning blue flame.
  • Blue fireworks – Various metals like copper, chlorine, and arsenic produce blue sparks when heated.
  • St. Elmo’s fire – Plasma discharge creates a brief blue glow around pointed objects during electrical storms.

In summary, blue fire occurs when a gas or vapor burns hot enough to excite molecular light emissions, unobscured by glowing soot particles. This requires temperatures around 1,100°C or higher.

Blue Fire Throughout History

References to blue fire in ancient texts and myths are rare, making it difficult to determine if the phenomenon has always manifested the same way. However, some clues exist:

  • Roman candles – These early fireworks from China (200 BC) produced various colors including blue.
  • Hindu mythology – Stories describe magical blue fire emerging from the mouths of gods and demons.
  • Pliny the Elder – This Roman scholar described blue St. Elmo’s fire around ship masts in his writings from the 1st century AD.
  • Alchemists – Some alchemy texts from the Middle Ages mention blue flames produced during experiments.

While intriguing, these sporadic references make it hard to conclude if blue fire has always been possible. More definitive evidence emerges around the 16th-17th centuries:

  • Early chemists like Johann Rudolf Glauber distilled acids and spirits that burned blue.
  • In 1671, chemist Robert Boyle experimented with phosphorus, producing “a faint blue Flame.”
  • Angelo Sala noted a blue color while experimenting with arsenic in the early 1700s.

By the 1800s, scientists had definitively identified various methods of generating blue flames thanks to advances in chemistry and physics. This included more systematic documentation of St. Elmo’s fire, methanol’s blue combustion, and specially designed Bunsen burners.

Theories on Ancient Blue Fire

If blue fire occurred before the 1600-1700s, what could have caused it?

  • Natural gas seeps – Ancient peoples may have ignited methane from geologic seeps.
  • Volcanic activity – Gases like sulfur dioxide can burn blue when heated by lava or pyroclastic flows.
  • Meteorites – Space rocks may have deposited reactive minerals used by ancients to make blue pyrotechnics.

While interesting theories, clear evidence is still lacking. Stories of magical blue flames in mythologies are difficult to interpret. Overall, it seems likely blue fire first emerged alongside advances in scientific understanding rather than manifesting primordially.

Properties and Applications of Blue Fire

Understanding the properties of blue fire has allowed scientists and engineers to utilize it for various applications over the past two centuries:

High Temperature

The high temperatures capable with blue fire make it useful for:

  • Metalworking – Precise oxy-gas torches cut, weld, and shape alloys.
  • Glassblowing – Intense methane/oxygen flames melt and shape glass.
  • Furnaces – Regenerative flame furnaces reach over 3,000°F for annealing metals.


Blue flames indicate complete combustion, releasing more energy with fewer emissions, allowing uses like:

  • Stovetops – Blue flames transfer more cooking heat.
  • Engines – Lean, clean-burning blue flames improve performance in engines like jets.
  • Incineration – Efficient blue combustion minimizes waste gas emissions.


Carefully controlled blue flames permit precise applications including:

  • Bunsen burners – Adjustable blue flames provide controlled, sterile heating.
  • Atomizers – Consistent flames vaporize solutions for spectroscopy.
  • Balloon flight – Blue propane burners provide lift and steering.


The unique appearance of blue fire allows creative applications like:

  • Fireworks – Blue colors excite audiences.
  • Magic acts – Illusions use blue fire for mystery and intrigue.
  • Movies – Blue fire enhances special effects.

Health and Safety

Despite the benefits, blue fire comes with some unique hazards:

  • It can be nearly invisible in daylight, increasing burns risks.
  • Higher temperatures increase severity of burns.
  • Toxic gases – Certain blue-burning vapors release harmful fumes.
  • Ultraviolet rays – Blue flames emit more UV radiation that can damage skin and eyes.

Safety tips include:

  • Ensure adequate ventilation when working with blue fires.
  • Use proper protective equipment like face shields and fire-retardant clothing.
  • Handle reactive compounds carefully to avoid uncontrolled ignition.
  • Train personnel properly on risks and procedures before allowing work with blue flames.


In summary:

  • Blue fire results from burning clean gas fuels at extremely high temperatures above 1,100°C.
  • Clear documentation of blue flames emerged around the 1600s alongside scientific advances.
  • Earlier blue fire references are scarce, making origins uncertain.
  • Controlled blue flames now bring benefits in metallurgy, chemistry, and engineering.
  • Safety measures are necessary to manage risks of high temperatures and invisible flames.

While blue fire itself may have ancient origins, harnessing it practically required modern science. Its properties continue to bring new applications today, though hazards must be respected. With careful use, blue fire remains a unique tool as well as a subject of enduring curiosity.